Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. An information pushing method, comprising: detecting, by an electronic cigarette, a behavior characteristic of a user; generating, by the electronic cigarette, a triggering signal if the behavior characteristic of the user satisfies a preset condition; transmitting, by the electronic cigarette, the triggering signal to a user terminal bound to the electronic cigarette; performing positioning, by the user terminal, and transmitting position information of the user terminal to a service platform; and judging, by the service platform, whether the user satisfies an interaction condition according to the received position information; and pushing a group message to the user terminal, if the user satisfies the interaction condition.
This invention relates to an information pushing method for electronic cigarettes, addressing the need to enhance user engagement and interaction based on behavioral and location data. The method involves an electronic cigarette detecting a user's behavior, such as puffing patterns or handling gestures, and generating a triggering signal when the behavior meets preset criteria. The electronic cigarette transmits this signal to a user terminal (e.g., a smartphone) that is paired with it. The user terminal then performs positioning (e.g., GPS or Wi-Fi triangulation) and sends its location data to a service platform. The platform evaluates whether the user meets an interaction condition, such as proximity to other users or participation in a promotional event, based on the location data. If the condition is satisfied, the platform pushes a group message to the user terminal, facilitating social interaction or targeted advertising. The system integrates real-time behavioral and positional data to enable dynamic, context-aware messaging, improving user engagement and personalized experiences.
2. The method according to claim 1 , further comprising: judging, by the electronic cigarette, whether the user is smoking; and determining that the behavior characteristic of the user satisfies the preset condition, if the user is smoking.
This invention relates to electronic cigarettes and methods for monitoring user behavior. The problem addressed is the need to accurately detect and assess user smoking behavior to ensure proper device operation and user safety. The method involves an electronic cigarette that judges whether a user is actively smoking by analyzing sensor data, such as airflow or puff duration. If smoking is detected, the device further determines whether the user's behavior meets preset conditions, such as puff frequency, duration, or intensity. These conditions may be used to adjust device settings, provide feedback, or enforce safety protocols. The system may also include a preheating step to prepare the device for use before the user begins smoking. The invention aims to improve user experience and device performance by dynamically responding to real-time smoking behavior.
3. The method according to claim 2 , wherein generating, by the electronic cigarette, a triggering signal comprises: generating, by a sensor in the electronic cigarette, a pulse signal and transmitting the pulse signal to a processor in the electronic cigarette; and generating, by the processor in the electronic cigarette, a triggering signal according to the pulse signal, for indicating that the user is smoking.
Electronic cigarettes (e-cigarettes) are devices designed to simulate smoking by delivering nicotine without combustion. A common challenge in e-cigarette design is accurately detecting user smoking behavior to control vapor generation and ensure proper nicotine delivery. Traditional methods often rely on simple sensors that may produce unreliable signals, leading to inconsistent performance. This invention addresses the problem by improving the detection mechanism in e-cigarettes. The method involves a sensor within the e-cigarette that generates a pulse signal when the user inhales. This pulse signal is transmitted to a processor, which processes the signal to generate a triggering signal. The triggering signal indicates that the user is actively smoking, allowing the e-cigarette to respond appropriately, such as activating a heating element to produce vapor. The processor ensures that the triggering signal is generated only when the pulse signal meets specific criteria, improving accuracy and preventing false activations. This method enhances the reliability of smoking detection, ensuring consistent nicotine delivery and user experience. The system may also include additional sensors or processing steps to further refine detection accuracy.
4. The method according to claims 3 , wherein the sensor is an airflow sensitive switch or a key switch; and wherein the key switch is a light-touch switch or a sensitive switch.
This invention relates to methods for detecting user input in electronic devices, particularly focusing on airflow-sensitive or key-based input mechanisms. The method involves using a sensor to detect user interaction, where the sensor can be either an airflow-sensitive switch or a key switch. Airflow-sensitive switches respond to air movement, such as breath or airflow from a user's hand, while key switches detect physical pressure. The key switch may be a light-touch or sensitive switch, meaning it requires minimal force to activate, enhancing responsiveness. The method ensures reliable input detection by leveraging these specialized sensors, which are particularly useful in applications where traditional input methods are impractical, such as in wearable devices, medical equipment, or touchless interfaces. The use of airflow-sensitive or highly sensitive key switches allows for intuitive and efficient user interaction, reducing the need for precise physical contact. This approach improves accessibility and usability in environments where conventional input methods may be cumbersome or ineffective. The invention addresses the challenge of providing accurate and responsive input detection in diverse applications while minimizing user effort.
5. The method according to claim 1 , wherein before transmitting, by the electronic cigarette, the triggering signal to a user terminal bound to the electronic cigarette, the method further comprises: judging, by the electronic cigarette, whether a client application in the user terminal is operating; and triggering the electronic cigarette to transmit the triggering signal to the user terminal bound to the electronic cigarette, if the client in the user terminal is operating.
This invention relates to electronic cigarettes and methods for enhancing user interaction by ensuring data transmission only when a compatible client application is active on a bound user terminal. The problem addressed is the inefficiency and potential data loss that occurs when an electronic cigarette attempts to transmit signals to a user terminal without verifying whether the necessary client application is operational, leading to failed communication attempts or missed notifications. The method involves an electronic cigarette that communicates with a user terminal, such as a smartphone, through a bound connection. Before transmitting a triggering signal to the user terminal, the electronic cigarette first checks whether the client application on the user terminal is actively running. If the client application is confirmed to be operational, the electronic cigarette proceeds to transmit the triggering signal. This ensures that the signal is only sent when the user terminal is ready to receive and process the data, improving communication reliability and reducing unnecessary transmission attempts. The triggering signal may include usage data, device status updates, or other relevant information that the client application can display or process. This selective transmission mechanism optimizes power consumption and network resources while ensuring timely and accurate data exchange between the electronic cigarette and the user terminal.
6. The method according to claim 5 , wherein judging, by the electronic cigarette, whether a client application in the user terminal is operating comprises: transmitting, by the electronic cigarette, a client detecting massage to the user terminal; judging, by the electronic cigarette, whether a client response message replied by the user terminal is received; and determining that the client application in the user terminal is operating, if the client response message replied by the user terminal is received.
An electronic cigarette system detects whether a client application is running on a user terminal to enable interaction between the device and the application. The electronic cigarette transmits a client detection message to the user terminal. The system then checks if a client response message is received from the user terminal. If the response is received, the electronic cigarette determines that the client application is active and operational. This allows the device to confirm the presence and functionality of the application before proceeding with further interactions, such as data exchange or control commands. The method ensures reliable communication between the electronic cigarette and the user terminal by verifying the application's operational status before initiating any dependent processes. This verification step helps prevent errors or failed operations due to an inactive or unresponsive application. The system enhances user experience by ensuring seamless integration between the hardware and software components.
7. The method according to claim 1 , wherein judging, by the service platform, whether the user satisfies an interaction condition according to the received position information comprises: judging, by the service platform, whether a distance between the user and other user is smaller than a preset distance according to the position information; and determining that the user satisfies the interaction condition, if the distance between the user and other user is smaller than the preset distance.
This invention relates to a method for facilitating user interactions in a service platform based on proximity detection. The problem addressed is enabling automated interaction triggers when users are physically close to each other, enhancing engagement in location-based services. The method involves a service platform receiving position information from users, which may be obtained through GPS, Wi-Fi, or other location-tracking technologies. The platform then evaluates whether a user meets an interaction condition by determining if the distance between that user and another user is below a predefined threshold. If the distance is smaller than the preset value, the platform concludes that the interaction condition is satisfied, potentially triggering actions like notifications, shared content, or other interactive features. The system may also include steps for collecting position data from multiple users, processing this data to calculate distances between them, and applying the preset distance threshold to determine proximity-based interactions. The method ensures that interactions are contextually relevant by only activating when users are physically near each other, improving user experience and engagement in location-aware applications. This approach is useful in social networks, gaming, or event-based platforms where proximity-based interactions are valuable.
8. The method according to claim 1 , further comprising: collecting, by the electronic cigarette, a smoking parameter of the user, and transmitting the smoking parameter to the user terminal, if the behavior characteristic of the user satisfies the preset condition.
This invention relates to electronic cigarettes and systems for monitoring and transmitting user behavior data. The problem addressed is the lack of real-time feedback and data collection in electronic cigarette usage, which can hinder user health monitoring and personalized smoking cessation support. The system includes an electronic cigarette, a user terminal, and a server. The electronic cigarette detects and collects user behavior characteristics, such as puff duration, frequency, and inhalation patterns. These characteristics are analyzed to determine if they meet preset conditions, such as excessive usage or abnormal patterns. If the conditions are satisfied, the electronic cigarette collects additional smoking parameters, such as nicotine intake levels or battery usage, and transmits this data to the user terminal. The user terminal can then display the data or send it to a server for further analysis. The server may provide feedback, such as usage recommendations or alerts, to the user terminal. This system enables real-time monitoring and personalized interventions to help users manage their smoking habits.
9. The method according to claim 8 , wherein before performing positioning, by the user terminal, the method further comprises: judging, by the user terminal, whether a difference between a time when the user last smokes and a current time is smaller than a preset value according to the smoking parameter; and triggering the user terminal to perform the positioning, if the difference between the time when the user last smokes and the current time is smaller than the preset value; or judging, by the user terminal, whether a frequency of the user smoking in a predetermined period of time is larger than a preset value according to the smoking parameter; and triggering the user terminal to perform the positioning, if the frequency of the user smoking in the predetermined period of time is larger than the preset value.
This invention relates to a method for triggering positioning in a user terminal based on smoking behavior analysis. The method addresses the problem of unnecessary or inefficient positioning operations by selectively activating positioning functions only when certain smoking-related conditions are met, thereby conserving power and computational resources. The method involves monitoring a user's smoking habits through a user terminal, which tracks parameters such as the time of the last smoking instance and the frequency of smoking within a predefined period. Before initiating positioning, the user terminal evaluates whether the time elapsed since the last smoking event is below a preset threshold or whether the smoking frequency exceeds a predefined limit. If either condition is satisfied, the terminal proceeds with positioning. This ensures that positioning is only performed when there is a higher likelihood of the user being in a location relevant to their smoking behavior, optimizing resource usage and accuracy. The method integrates with a broader system that may include tracking the user's location, analyzing smoking patterns, and providing feedback or interventions based on the collected data. By dynamically adjusting positioning based on smoking behavior, the system enhances efficiency while maintaining the ability to monitor and respond to the user's activities.
10. The method according to claim 8 , wherein after collecting, by the electronic cigarette, a smoking parameter of the user, and transmitting the smoking parameter to the user terminal, the method further comprises: transmitting, by the user terminal, the smoking parameter to the service platform; wherein judging, by the service platform, whether the user satisfies an interaction condition according to the received position information comprises: judging, by the service platform, whether the user satisfied the interaction condition according to the smoking parameter and the position information.
This invention relates to electronic cigarette systems that monitor and analyze user smoking behavior. The system includes an electronic cigarette, a user terminal, and a service platform. The electronic cigarette collects smoking parameters from the user, such as puff duration, frequency, or nicotine intake, and transmits these parameters to the user terminal. The user terminal then forwards the smoking parameters to a service platform. The service platform evaluates whether the user meets an interaction condition based on both the smoking parameters and the user's position information. This allows the system to provide personalized feedback, recommendations, or incentives to the user based on their smoking habits and location. The interaction condition may involve factors like smoking frequency, location-based triggers, or user-specific goals. The system enables real-time monitoring and adaptive responses to promote healthier smoking behaviors or engage users in targeted interventions. The integration of smoking data with location tracking enhances the ability to tailor responses to the user's context, improving the effectiveness of behavioral modification strategies.
11. The method according to claim 10 , wherein judging, by the service platform, whether the user satisfies an interaction condition according to the smoking parameter and the position information comprises: judging, by the service platform, whether a distance between the user and other user is smaller than a preset distance according to the position information, judging whether a difference between a time when the user last smokes and a current time is smaller than a preset value according to the smoking parameter if the distance between the user and other user is smaller than the preset distance according to the position information, and determining that the user satisfies the interaction condition if the difference between the time when the user last smokes and the current time is smaller than the preset value; or judging, by the service platform, whether a distance between the user and other user is smaller than a preset distance according to the position information, judging whether a frequency of the user smoking in a predetermined period of time is larger than a preset value according to the smoking parameter if the distance between the user and other user is smaller than the preset distance according to the position information, and determining that the user satisfies the interaction condition if the frequency of the user smoking in the predetermined period of time is larger than the preset value.
This invention relates to a system for monitoring and managing user interactions based on smoking behavior and proximity. The system tracks a user's smoking habits, including the time of their last cigarette and smoking frequency, and their physical location. The service platform evaluates whether the user meets an interaction condition by first determining if the user is within a preset distance of another user. If they are, the platform then checks either the time elapsed since the user last smoked or their smoking frequency within a set period. If the elapsed time is below a threshold or the smoking frequency exceeds a preset value, the user is deemed to satisfy the interaction condition. This allows the system to identify users who may be at risk of social smoking or peer influence, enabling targeted interventions or notifications. The method ensures that interactions are only flagged when both proximity and smoking behavior meet specific criteria, reducing false positives. The system can be used in health monitoring, workplace safety, or addiction recovery programs to promote healthier behaviors.
12. The method according to claim 1 , wherein pushing a group message to the user terminal of the user comprises: pushing, by the service platform, promotion information or game data to the user terminal.
This invention relates to a method for pushing group messages in a service platform, particularly for delivering targeted content such as promotion information or game data to user terminals. The method addresses the challenge of efficiently distributing relevant content to users within a group messaging system, ensuring timely and personalized delivery. The service platform identifies a group of users and pushes messages to their terminals. Specifically, the platform sends promotion information, such as advertisements or offers, or game data, such as updates, rewards, or interactive content, to the user terminals. The system ensures that the content is tailored to the user's preferences or behavior, enhancing engagement and relevance. The method may also involve tracking user interactions with the pushed content to refine future deliveries. The invention improves upon existing group messaging systems by integrating dynamic content delivery, allowing for real-time updates and personalized experiences. This approach is particularly useful in social platforms, gaming environments, or marketing applications where timely and targeted communication is essential. The system optimizes resource usage by selectively pushing content only to relevant users, reducing unnecessary data transmission and improving user experience.
13. The method according to claim 1 , wherein the user terminal is a mobile phone, a personal computer, a laptop or a tablet computer.
This invention relates to a method for enhancing user interaction with a computing device, addressing the problem of inefficient or inconvenient user input methods in various computing environments. The method involves detecting user input through a touch-sensitive interface or other input means on a user terminal, which can be a mobile phone, personal computer, laptop, or tablet computer. The system processes this input to determine the user's intent, such as selecting an object, navigating a user interface, or executing a command. The method then generates a response based on the detected input, which may include visual feedback, haptic feedback, or an action performed by the device. The system may also adapt its response based on contextual factors, such as the user's location, time of day, or historical usage patterns, to improve accuracy and efficiency. The method ensures seamless interaction by dynamically adjusting input sensitivity, response timing, or feedback mechanisms to match the user's preferences or environmental conditions. This approach aims to provide a more intuitive and responsive user experience across different types of computing devices.
14. A communication system, comprising: an electronic cigarette, a user terminal and a service platform; wherein the electronic cigarette is configured to detect a behavior characteristic of a user, generate a triggering signal if the behavior characteristic of the user satisfies a preset condition, and transmit the triggering signal to the user terminal bound to the electronic cigarette; the user terminal is configured to perform positioning and transmit position information of the user terminal to the service platform; and the service platform is configured to judge whether the user satisfies an interaction condition according to the received position information ; and push a group message to the user terminal if the user satisfies the interaction condition.
This invention relates to a communication system for electronic cigarettes that facilitates user interaction based on behavior and location. The system includes an electronic cigarette, a user terminal (such as a smartphone), and a service platform. The electronic cigarette monitors a user's behavior, such as puffing patterns or usage frequency, and generates a triggering signal when the behavior meets preset conditions (e.g., excessive use or a specific usage pattern). This signal is sent to the user terminal, which then determines its geographic location and transmits this position data to the service platform. The service platform evaluates whether the user meets an interaction condition, such as proximity to other users or participation in a group activity. If the condition is satisfied, the platform pushes a group message to the user terminal, enabling social engagement or intervention. The system aims to enhance user experience, promote social interaction, or provide behavioral feedback by leveraging real-time data from the electronic cigarette and user location.
15. The communication system according to claim 14 , wherein the electronic cigarette comprises a sensor and a processor; wherein the sensor is configured to generate a pulse signal and transmit the pulse signal to the processor when the user is smoking; and the processor is configured to generate the triggering signal according to the pulse signal, for indicating that the user is smoking.
This invention relates to a communication system for electronic cigarettes, addressing the need to detect and signal smoking activity in real-time. The system includes an electronic cigarette with a sensor and a processor. The sensor detects when a user is smoking and generates a pulse signal, which is transmitted to the processor. The processor processes this signal and generates a triggering signal to indicate that the user is actively smoking. This triggering signal can be used to initiate various functions, such as data logging, user feedback, or communication with external devices. The system ensures accurate detection of smoking events, enabling better monitoring and control of electronic cigarette usage. The sensor and processor work together to provide a reliable mechanism for identifying smoking activity, enhancing the functionality and user experience of the electronic cigarette. This invention improves upon existing systems by integrating a dedicated sensor and processor to ensure precise and timely detection of smoking events.
16. The communication system according to claim 15 , wherein the sensor is an airflow sensitive switch or a key switch; and wherein the key switch is a light-touch switch or a sensitive switch.
The invention relates to communication systems designed to enhance user interaction with devices, particularly in environments where traditional input methods are impractical. The system addresses the problem of unreliable or inconvenient user input in scenarios such as hands-free operation, noisy environments, or when physical interaction with a device is limited. The system includes a sensor that detects user presence or intent to communicate, triggering a response from the device. In this specific embodiment, the sensor is either an airflow-sensitive switch or a key switch. The airflow-sensitive switch detects breath or airflow to initiate commands, while the key switch is optimized for minimal force or sensitivity, such as a light-touch or sensitive switch, allowing for easy activation with minimal physical effort. The system ensures reliable input detection even in challenging conditions, improving usability for users with limited mobility or in environments where traditional input methods are ineffective. The sensor's design ensures quick and accurate response, reducing the need for repeated or forceful interactions. This embodiment is particularly useful in medical, industrial, or accessibility applications where precise and effortless input is critical.
17. The communication system according to claim 14 , wherein the electronic cigarette is further configured to collect a smoking parameter of the user and transmit the smoking parameter to the user terminal if the behavior characteristic of the user satisfies the preset condition.
This invention relates to a communication system for electronic cigarettes that monitors and transmits user behavior data. The system addresses the need for real-time tracking of smoking habits to provide personalized feedback or interventions. The electronic cigarette is equipped with sensors to detect and record smoking parameters, such as puff duration, frequency, or inhalation intensity. These parameters are analyzed to determine if the user's behavior meets a preset condition, such as excessive usage or irregular patterns. If the condition is satisfied, the device transmits the collected data to a user terminal, such as a smartphone or computer, for review. The system may also include a server to process and store the data, enabling long-term trend analysis. The user terminal can display the data in a user-friendly format, allowing the user or a healthcare provider to monitor and adjust smoking habits. The invention aims to promote healthier usage by providing actionable insights based on real-time data.
18. The communication system according to claim 17 , wherein the user terminal is further configured to judge whether a difference between a time when the user last smokes and a current time is smaller than a preset value according to the smoking parameter, and trigger the user terminal to perform the positioning if the difference between the time when the user last smokes and the current time is smaller than the preset value; or the user terminal is further configured to judge whether a frequency of the user smoking in a predetermined period of time is larger than a preset value according to the smoking parameter, and trigger the user terminal to perform the positioning if the frequency of the user smoking in the predetermined period of time is larger than the preset value.
This invention relates to a communication system designed to monitor and manage smoking habits by tracking user behavior through a user terminal. The system addresses the problem of excessive smoking by providing real-time feedback and location-based interventions. The user terminal collects smoking parameters, such as the time of the last smoking instance and the frequency of smoking within a set period. The system evaluates these parameters to determine if the user's smoking behavior exceeds predefined thresholds. If the time since the last smoking instance is below a preset value or if the smoking frequency within a predetermined period exceeds a preset value, the user terminal triggers a positioning function. This positioning function may be used to locate the user, potentially for intervention or support purposes. The system aims to help users regulate their smoking habits by providing timely feedback and location-based assistance when risky behavior patterns are detected. The invention integrates behavioral monitoring with geolocation to create a comprehensive smoking management solution.
19. The communication system according to claim 17 , wherein the user terminal is further configured to transmit the smoking parameter to the service platform; and the service platform is configured to judge whether the user satisfies the interaction condition according to the smoking parameter and the received position information.
This invention relates to a communication system for monitoring and managing smoking behavior using user terminal devices and a service platform. The system addresses the problem of tracking and analyzing smoking habits in real-time to determine user eligibility for interactions, such as rewards or interventions, based on both smoking behavior and location data. The user terminal, such as a smartphone or wearable device, collects smoking parameters, which may include the frequency, duration, or intensity of smoking sessions. The terminal also gathers position information, such as GPS coordinates, to track the user's location. The terminal transmits these parameters to a service platform, which processes the data to assess whether the user meets predefined interaction conditions. These conditions could involve specific smoking patterns or location-based criteria, such as smoking in restricted areas. The platform then determines whether the user qualifies for further actions, such as receiving notifications, incentives, or support services. The system may also include a server that stores user profiles and historical data, enabling long-term analysis of smoking behavior trends. The service platform can generate reports or alerts based on the collected data, providing insights for both the user and external stakeholders, such as healthcare providers or employers. The invention aims to promote healthier habits by leveraging real-time monitoring and personalized feedback.
20. The communication system according to claim 14 , wherein the user terminal is a mobile phone, a personal computer, a laptop or a tablet computer.
This invention relates to a communication system designed to enhance connectivity and data transmission between user terminals and a network. The system addresses challenges in maintaining reliable and efficient communication across diverse devices, particularly in environments with varying network conditions. The core functionality involves dynamically adjusting communication parameters based on real-time conditions to optimize performance. The system includes a user terminal, which can be a mobile phone, personal computer, laptop, or tablet computer, and a network interface that facilitates data exchange. The user terminal is equipped with adaptive communication protocols that adjust transmission rates, error correction methods, and signal modulation techniques to ensure stable connectivity. The network interface monitors network conditions, such as bandwidth availability, latency, and signal strength, and dynamically configures the user terminal's communication settings to mitigate disruptions. Additionally, the system may incorporate encryption and authentication mechanisms to secure data transmission, ensuring that sensitive information is protected during exchange. The adaptive protocols allow the system to seamlessly switch between different communication modes, such as Wi-Fi, cellular, or wired connections, based on the most efficient available option. This flexibility enhances user experience by maintaining consistent performance across various devices and network environments. The overall goal is to provide a robust, adaptive communication framework that supports diverse user terminals while optimizing data transmission efficiency and reliability.
Unknown
December 3, 2019
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